基于摄动法的次优对地制导

Jingwei Meng, W. Chen, Wenbin Yu
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引用次数: 0

摘要

针对地面打击任务,提出了一种基于摄动法的解析制导律。在攻角为零的情况下,考虑重力和阻力的影响,利用摄动法建立了零努力脱靶的解析表达式。在发展过程中,非线性飞行动力学分为考虑重力和阻力主要影响的零阶动力学和补偿剩余影响的一阶动力学。为了解析解决这一问题,创新性地引入了一个中间变量,并用拉格朗日多项式拟合一些系数。仿真结果表明,解析式ZEM表达式与数值积分法具有几乎相同的高精度,但前者的计算效率远高于后者。与传统制导律相比,该制导律可实现零最终攻角,且所需机动载荷较小。
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Sub-optimal ground-strike guidance based on perturbation method
An analytical guidance law based on perturbation method is proposed for ground strike mission. Letting the angle of attack (AOA) zero and considering the effects of gravity and drag force, the analytical expression of Zero Effort Miss (ZEM) is developed using perturbation method. In the development, the nonlinear flight dynamics is divided into the zeroth-order dynamics considering the major impact of gravity and drag force and the first-order dynamics compensating the remaining impact. To analytically solve the problem, an intermediate variable is innovatively introduced and some coefficients are fitted by Lagrange Polynomials. The simulation results show that the analytical ZEM expression has nearly the same high accuracy as the numerical integration, but the former has a much higher computation efficiency than the latter. Compared with the traditional guidance laws, the proposed guidance law can achieve a zero final AOA and requires less maneuvering load.
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